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Hydrological dispersion module of JRODOS: development and pilotimplementation – the vistula river basin

Published online by Cambridge University Press:  16 September 2010

Wolfgang Raskob,
Michel Hugon,
M. Zheleznyak,
S. Potempski,
R. Bezhenar,
A. Boyko,
I. Ievdin,
A. Kadlubowski and
D. Trybushnyi
M. Zheleznyak
Affiliation:
Ukrainian Center of Environmental and Water Projects, Prospect Glushkova, 42, 03187 Kiev, Ukraine
S. Potempski
Affiliation:
Institute of Atomic Energy POLATOM, Centre of Excellence MANHAZ, 05-400 Otwock-Swierk, Poland
R. Bezhenar
Affiliation:
Ukrainian Center of Environmental and Water Projects, Prospect Glushkova, 42, 03187 Kiev, Ukraine
A. Boyko
Affiliation:
Ukrainian Center of Environmental and Water Projects, Prospect Glushkova, 42, 03187 Kiev, Ukraine
I. Ievdin
Affiliation:
Ukrainian Center of Environmental and Water Projects, Prospect Glushkova, 42, 03187 Kiev, Ukraine
A. Kadlubowski
Affiliation:
Institute of Meteorology and Water Management, Podleśna 61, 01-673 Warsaw, Poland
D. Trybushnyi
Affiliation:
Ukrainian Center of Environmental and Water Projects, Prospect Glushkova, 42, 03187 Kiev, UkraineKarlsruhe Institute of Technology, Kaiserstraße 12, 76131 Karlsruhe, Germany
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Abstract

Contemporary open source JAVA technologies implemented within the EURANOS project for thecross-platform re-engineering of the decision support system RODOS (JRODOS) were used alsoto redesign the Hydrological Dispersion Module (HDM) of this system. JHDM – thehydrological model chain of JRODOS contains models to simulate the radionuclide transportin the system “atmospheric fallout on watershed – river net” and calculate the doses viaaquatic pathways. JHDM used for this purpose a limited number of the input parameters tocharacterize the hydrological properties of the catchment/river network of interest. Thepilot implementation of JHDM for the Vistula river basin carried out by POLATOM andsupported by the national hydrological institute, demonstrated good perspectives of theapproach used in JHDM for the decision support in cases of accidental contamination ofwater systems. Particular needs for further improvements of the JHDM software system havebeen identified.

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